
Hands-on tutorial exploring RNNs in cognitive neuroscience through coding exercises. Learn to train and analyze RNNs for various tasks, with lecture and workshop components using Google Colab Notebooks.

Explore how feedback influences visual processing, using masking studies and network modeling to understand its impact on classification accuracy and neural activity.

Explore auditory processing through computational models, comparing AI and human performance in speech recognition, sound localization, and pitch perception.

Explore deep generative models for brain reading, covering GAN implementation, image reconstruction from brain signals, and evolving latent codes using genetic algorithms.

Explore reinforcement learning theory using predictive maps, bridging model-based and model-free approaches. Discover insights into hippocampal spatial representation and entorhinal grid cells.

Explore cutting-edge techniques in connectomics, from crowdsourcing to machine learning, for mapping neural connections and understanding brain function at scale.

Explore AI alignment experiments comparing INSTRUCT vs foundation and agent models, focusing on interpretability, system-level alignment, and stability in complex AI systems.

Explore probabilistic programming for continuous-time systems using ProPPA, an extension of Bio-PEPA. Learn parameter inference methods and applications in biology, ecology, and urban transport.

Exploring machine learning applications beyond tech, highlighting challenges in science and policy. Discusses fair algorithms, interpretable models, and the need for targeted methods in complex domains.

Explore advanced least squares techniques for analytical chemistry, including applications in microplastics detection and spectral analysis of biological samples.

Explore strategies for handling correlated variables in data analysis, including orthogonalization techniques and predictive component methods.

Explore techniques for merging multiple calibration models to improve efficiency and robustness in quality control, with a focus on balancing simplicity and prediction accuracy.

Explore machine learning applications in condensed matter physics, from electronic simulations to material engineering. Discover how ML enhances computational methods and enables new physical insights for exotic materials.

Explore theropod tooth evolution in Late Cretaceous Alberta through morphology and disparity analysis, revealing patterns across formations and time periods.

Explore DeepMind's AlphaFold, a revolutionary AI system for protein structure prediction, and its potential impact on biology, medicine, and scientific research.

Explore how supercomputing and biology integration revolutionizes disease research, breaking linear thinking to uncover complex pathways and innovative treatments.

Explore how AI accelerates materials discovery through machine learning, high-throughput methods, and autonomous systems. Learn about crystal structure mapping, phase mapping, and future opportunities in materials research.

Explore the foundations of statistical mechanics and its ability to predict macroscopic system behavior with renowned physicist Joel Lebowitz. Gain insights into Gibbs ensembles and their applications.

Machine learning techniques for ocean modeling, exploring advances in subgrid closures, turbulent closures, and stochastic parameters to improve climate predictions and understand ocean dynamics.

Explores correlation functions in hydrodynamics beyond traditional paradigms, focusing on integrable models, hyperbolic scaling, and novel approaches to non-equilibrium many-body physics.

Explores non-equilibrium many-body physics, focusing on superdiffusion, subdiffusion, and integrability in quantum systems. Discusses the XXZ spin chain and integrability-breaking, providing insights into transport phenomena and diffusion.